TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 1 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Implementation of LCA in the early stages of product development – Implementation of LCA in the early stages of product development. G. Singh Bhander “Raja” Department of Manufacturing Engineering and Management (IPL) Technical University of Denmark Product & Process Development and Design

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 2 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Why do LCA?  LCA provides a framework for identifying and evaluating environmental burdens associated with the life cycles of materials and services in a "cradle-to- grave" approach.  LCA systematically identifies and evaluates opportunities for minimizing the overall environmental consequences of resource usage and environmental releases.  LCA thus helps bridge the gap between product development and environmental improvement.  Governments and society simply expect that companies pay attention to the environmental properties of all products and LCA and its utilization for product/process improvement is the way to meet this demand.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 3 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT LCA deficiencies  Very time consuming and costly, does not support reduced time to market.  Generally too complex to implement in the product development  Requires input from environmental experts.  No methods exist to reuse or update the assessment parameters as the circumstances change.  Provides a snapshot in time of complex system interactions and therefore does not cater for the dynamic nature of product evolution in the design process.  Most techniques are first usable after the design is completed and do not support the life cycle evaluation throughout the design process.  Current environmental evaluation tools support the convergent learning style of scientists.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 4 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Research focus  Develop methodologies and strategies for implementation of LCA in the early stages of the product design (idea or conceptual design phase).  Analyse CAD-LCA integration approach and restrictions.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 5 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Eco-design process?  Customer and Product Requirements definition.  Product Functional requirements.  Structural and material Requirements definition.  General design stage.  Detailed design stage. The problem and customer requirements are translated into design specifications. The EI curve shows that the conceptual design phase is very significant in comparison to other phases of the product development with respect to the optimisation of environmental performance. The decision maker (usually the designer) needs to convert the design specifications into environmentally and legislative design specifications. This stage of the design process describes the architecture of the product system to be designed, which is defined as the input/output interactions of the various devices required to perform the function The detailed design stage (final stage), where the components' interactions are hierarchically related and detailed design information is performed. The EI curve shows that the conceptual design phase is very significant in comparison to other phases of the product development with respect to the optimisation of environmental performance.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 6 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Design for the full Life Cycle  Life cycle design strategy: design for raw material extraction and recycling; design for manufacture and remanufacture; design for use and reuse; and design for end of life  Five improvement strategies: better material handling; chemical savings or substitutions; thermal energy economisation; electricity economisation; overhead reduction Environmental evaluations in the design process

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 7 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Life Cycle Design strategies  Design strategies for raw materials extractions: Minimise toxic chemical content; Incorporate recycled and recyclable materials; Use more durable materials; Reduce materials use; Design for sustainable resource depletion (choose less scarce materials); Reduce cost of material extraction; Avoid toxic substances; Increase energy efficiency; Reduce waste streams; Increase re-use (in the form of raw materials for another system (eco-system)) and recyclability of waste materials.  Design strategies for manufacture: Choose low impact substances and materials; Minimise toxic chemical content; Incorporate recycled and recyclable materials; Use more durable materials; Reduce the use of materials and substances in the life time of the product system; Design for sustainable resource depletion; Apply a remanufacture, reuse and recycling strategy; Choose less impact processes (eco-processes); Increase process efficiency; Increase energy efficiency; Reduce waste streams.  Design strategies for use: Design for energy efficiency; Design for less emissions and waste; Design for minimised packaging; Design for functional life; Design for physical life; Design for functional requirement not for decoration; Design for increase dfunctional efficiency and accuracy; Design for product’s less burden to sub-product.  Design strategies for Disposal: Re-use strategy: modular design; consider reduction of wear to components; protect from corrosion; easy to clean; minimum number of components, easy to disassemble; hazardous materials minimization and facilitation of part or subassembly removal; serviceable. Re-manufacture strategy: serviceable; easy to disassemble; easy to clean; modular design; testable subassemblies; built with durable materials. Recycling strategy: made from recyclable materials; recycled content specified; material variety minimised; number of components minimised; material compatibility maximised; use of hazardous materials minimised; materials labelled for identification; designed for ease of disassembly.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 8 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Main issues for product development  Information must be accessible and useable and in a form which can be understood by all members of the design team;  Formal design methods, strategic frameworks and guidelines must be adapted from existing practices, in order to maximise the chances of success in implementation;  Product developers need help in identifying the environmental issues surrounding the products they are developing;  Product developers should be aware of the use and benefits of the broad range of eco-design tools and techniques now available, and have the confidence in choosing the most relevant tools for the job;

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 9 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT CAD – LCA integration

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 10 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT GreenPAS approach?  GreenPAS PC tool will help product and system developers to view quick and precise results of the product system. It will also show profiles and scores showing the environmental and cost performance of the chosen product, which will: alert the decision maker or product developer to important choices made during development of the product or system. guide the developer to reduce the environmental score derived from a product. disclose the economic effects for the customer and company and help the company develop a more economic product or system. help to enhance the LCA by improving deficiencies.

TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 11 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT Conclusion  Sustainable product design requires deeper analyses in the early phase of the product design process than traditional industrial design, which is the focusing point in this presentation;  The introduction of LCA and industrial ecology forces the product designer to see the product in a wider perceptive;  A knowledge gap between the environmental scientist and the product designer can be filled through an interface between LCA and CAD systems;  An interface PC tool, integrated as early as possible in the design process, as well as being integrated throughout the design process could be of great help.